ClareNow
Search
ClareNow
Toggle sidebar
Technology → Neutral

Can Wearing the Hypershell Exoskeleton on a Bike Replace an E-Bike? I Tested Both

I’m an out-of-shape cycle enthusiast. I tested the Hypershell exoskeleton on a regular bike versus an e-bike and found a clear winner.

CNET 3 min read 4/10
Can Wearing the Hypershell Exoskeleton on a Bike Replace an E-Bike? I Tested Both
Key Takeaways
  • Hypershell exoskeleton adds roughly 3–5 mph to pedal speed, far less than the 15–20 mph typical of an e-bike, according to CNET's road test.
  • The exoskeleton's battery lasts about 90 minutes (15 miles) per charge; a mid-range e-bike with a 500Wh battery offers 40+ miles of range.
  • Pricing: Hypershell starts at approximately $899, while a comparable quality e-bike ranges from $1,200 to $2,500.
  • Weight: The Hypershell unit weighs ~8 lbs, much lighter than the 40–60 lbs of a typical e-bike, making it more portable for multi-modal trips.
  • Versatility advantage: The exoskeleton can be worn for walking, hiking, or climbing stairs after cycling, unlike e-bikes which are single-purpose vehicles.
Wearing a motorized exoskeleton while pedaling a regular bike can boost your speed and reduce effort — but can it truly replace the convenience of an e-bike? CNET’s out-of-shape cycle enthusiast put the Hypershell exoskeleton head-to-head against a standard e-bike and found a clear winner, revealing surprising trade-offs in power, portability, and battery life.

In a recent hands-on test, a CNET reporter strapped on the Hypershell wearable exoskeleton, a lightweight robotic frame worn over the legs, and took it for a spin on a conventional bicycle. The goal: see if the exoskeleton’s assist technology could match the electric boost of a typical e-bike. The test was conducted on a mix of flat roads and gentle inclines, mimicking everyday commuting conditions. The result underscores the growing niche for wearable robotics in personal mobility — but also the hard limits of current consumer exoskeletons.

The Hypershell exoskeleton, developed by the Chinese startup Hypershell, is designed to augment human movement by providing torque at the hips and knees when pedaling. It weighs about 8 pounds and uses a lithium-ion battery to deliver up to 15 miles of assisted riding per charge. In contrast, the e-bike used for comparison was a mid-range model with a 500Wh battery capable of 40+ miles of pedal-assist range at speeds up to 20 mph.

During the test, the exoskeleton’s assistance felt natural and responsive, but the overall speed gain was modest — averaging 3–5 mph above unassisted cycling. The e-bike, on the other hand, consistently maintained higher speeds with less physical exertion. However, the exoskeleton offered key advantages: it turned any ordinary bike into an assisted ride without requiring a new purchase, and it could be worn for walking or hiking after cycling, adding versatility. The battery life of the exoskeleton proved a limiting factor — after about 90 minutes of continuous use, it needed recharging, while the e-bike still had significant range left.

“The exoskeleton is fun and futuristic, but for daily commuting or lengthy rides, the e-bike is still the practical winner,” the tester noted. Industry observers see exoskeletons as a complement rather than a replacement, especially for cyclists who want light assistance on short trips or who need a device that transitions between walking and biking. The broader implications point toward a future where wearable assistive technology merges with personal mobility, but current battery density and torque limitations keep exoskeletons from dethroning e-bikes.

As Hypershell and rivals like Sarcos and Ekso Bionics continue to refine their consumer exoskeletons, expect incremental improvements in battery life and power output. For now, anyone considering an upgrade from a traditional bike should still look at an e-bike first — but keep an eye on exoskeletons for the next generation of assistive wearables.

Frequently Asked Questions

The Hypershell exoskeleton is worn over the legs and provides torque at the hips and knees using a motor and battery. When you pedal, sensors detect your movement and add boost, reducing the effort needed to maintain speed.

It depends on your needs. The Hypershell exoskeleton is lighter, more portable, and can be used for walking or hiking. However, e-bikes offer longer range, higher top speed, and less physical exertion overall. For daily commuting over long distances, an e-bike is generally superior.

The Hypershell exoskeleton starts at around $899, depending on the model and configuration. This is significantly cheaper than many e-bikes but offers more limited battery life and speed.

The Hypershell exoskeleton’s battery lasts about 90 minutes of continuous use, providing approximately 15 miles of assisted cycling. This is much shorter than the typical e-bike battery, which can last 40 miles or more.

For short commutes under 10 miles and where portability matters, the Hypershell exoskeleton could work. But for longer rides or higher speeds, an e-bike remains more practical. The exoskeleton is better suited as a complement for multi-modal trips.

Original source

www.cnet.com

Read original

Discussion

Join the discussion

Sign in to post a comment or reply.

No comments yet. Be the first to share your thoughts!

Sign in
Enter your email to receive a one-time sign-in code. No password needed.
Email address